CanoVerse: 3D Object Scalable Canonicalization and Dataset for Generation and Pose
Li Jin, Yuchen Yang, Weikai Chen, Yujie Wang, Dehao Hao, Tanghui Jia, Yingda Yin, Zeyu Hu, Runze Zhang, Keyang Luo, Li Yuan, Long Quan, Xin Wang, and Xueying Qin

TL;DR
CanoVerse introduces a large-scale canonical 3D object dataset and a fast canonicalization method, enabling improved pose consistency, 3D generation stability, and zero-shot orientation estimation across diverse categories.
Contribution
The paper presents a scalable canonicalization framework and a massive dataset that significantly enhance 3D object alignment, generation, and retrieval tasks.
Findings
Improved 3D generation stability
Enabled precise cross-modal shape retrieval
Achieved zero-shot point-cloud orientation estimation
Abstract
3D learning systems implicitly assume that objects occupy a coherent reference frame. Nonetheless, in practice, every asset arrives with an arbitrary global rotation, and models are left to resolve directional ambiguity on their own. This persistent misalignment suppresses pose-consistent generation, and blocks the emergence of stable directional semantics. To address this issue, we construct \methodName{}, a massive canonical 3D dataset of 320K objects over 1,156 categories -- an order-of-magnitude increase over prior work. At this scale, directional semantics become statistically learnable: Canoverse improves 3D generation stability, enables precise cross-modal 3D shape retrieval, and unlocks zero-shot point-cloud orientation estimation even for out-of-distribution data. This is achieved by a new canonicalization framework that reduces alignment from minutes to seconds per object via…
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Taxonomy
Topics3D Shape Modeling and Analysis · Robotics and Sensor-Based Localization · Robot Manipulation and Learning
